Abstract: The pane module is adapted to be installed in a window frame and comprises a pane element and a border element (91). The pane element includes at least two sheet elements (92, 94), such as sheets of glass, separated by one or more spacer members (93). The border element (91) is made by moulding and surrounds the pane element, at least partially encasing the edge of at least one sheet element. In order to provide the pane module with a number of functionalities traditionally performed by the frame, the pane module comprises at least one functional face.

Abstract: A system for field mulling a plurality of fenestration assemblies in an opening includes a first fenestration assembly positioned in the opening. The first fenestration assembly has a mull halve. A second fenestration assembly is positioned in the opening adjacent to the first fenestration assembly. The second fenestration assembly has a mull halve and is positioned so that the second fenestration assembly mull halve is adjacent to the first fenestration assembly mull halve. At least one H-shaped mull connector is coupled to the first fenestration assembly mull halve and the second fenestration assembly mull halve.

Abstract: In certain example embodiments of this invention, a window unit may include a vacuum IG (VIG) unit as an inboard lite and a monolithic lite (e.g., with an optional low-E coating thereon) as an outboard lite. A dead air space may separate the inboard and outboard lites. A highly insulated frame may be used to support the inner and outer lites. The VIG unit may be partially embedded or supported in the insulative frame, so that the insulating frame separates the VIG unit inboard lite from the outboard lite thereby reducing conductivity around the edges of the window unit so that R-value can be increased (and U-value decreased). In certain example embodiments, the total R-value of the window unit is at least about R-8, and more preferably at least about R-10 (compared to the much lower R-values of conventional IG units).

Abstract: Window pane systems which offer improved protection against blast and impact hazards, including contact blast caused by a bomb or a shell, with or without hollow charge and bullets. A window pane system of the present invention includes multiple glass layers, to absorb the ballistic impact of the explosion; a thick polymer such as polycarbonate, to absorb the kinetic energy of the blast including contact blast; and multiple elastic thin layers of polymer such as polycarbonate, to absorb the blast impact such as the shock wave and shrapnel. Optionally, the last layer is extended such that the last layer is covering up to the full width of the window pane system, preferably in all four sides of the window pane system.

Abstract: A window with at least one leaf, which may be swiveled around a vertical axis, has at least two glass panels arranged one above the other in a vertical direction. The leaf is configured so that one of the glass panels is offset forwards in relation to the other glass panel or panels in the line of sight when looking at the window from outside.

Abstract: A window assembly defines a transom opening above a movably deployable reflective shelf that is positionable to reflect sunlight into the building through the transom, and also can be closed over the transom for protection and/or privacy. The reflective shelf may be associated with a mechanically operated a jalousie window. A plurality of shading shelves may be located on the window below the reflecting shelf and similarly operable to open and close.

Abstract: There is provided a window/door system having a hidden rail structure wherein a rail structure is detachably installed at a substructure, the substructure installed where a window/door is to be installed, thereby making it very easy to replace and to maintain/repair the rail. In addition, the rail is hidden so as not to be visible to the outside when a window/door is opened/closed. That is, the present invention is to provide a window/door system having a hidden rail structure, wherein the rail structure is detachably installed at a substructure positioned where a window/door frame is to be installed, thereby making it very easy to replace and to maintain/repair the rail.

Abstract: The pane module is composed by a border element (2) molded around the pane element (1) encasing it on the edge and interior faces. The frame may be of a rectangular configuration, but it is to be understood that more complex configurations may be necessary for achieving a water proof connection to the structure in which the window is mounted or to a surrounding window frame. A fitting (42) is embedded in the border element (2) during its manufacture and is subsequently or simultaneously connected to the frame (3). When using a wooden or extruded frame the fitting may be driven into the finished frame member and when using a molded frame the fitting may be embedded therein during molding.

Abstract: The specification discloses a window or door, and glazing assemblies therefor, wherein the glazing assemblies include a first pane of glass with an exterior surface coated with a smooth, hardened silica-containing coating, and an opposite surface coated with at least one layer of a low emissivity coating. In one embodiment, a second pane of glass is joined to and spaced from the first pane of glass by a polymeric spacer. In a second embodiment, a third pane of glass is laminated to the second pane, and in a third embodiment, a third pane of glass coated on its interior surface with a low emissivity coating is joined to and spaced from the second pane by a polymeric spacer.

Abstract: The invention concerns a multi-layered heat insulating window panel for constructing wall and/or roof surfaces of a greenhouse, comprising: a frame structure, a first pane (12), particularly a customary glass pane which has an edge that is framed and attached in the frame structure and which is kept in position by the frame structure, and a supplementary pane, for example, deep drawn from plastic material, a supplementary pane on at least one surface of the first glass pane, forming a double-glazing arrangement, wherein the supplementary pane has a tray-like shape and the circumferential edge region is glued hermetically to the first pane and wherein the cavity is evacuated and in the interior the supplementary pane is supported by means of a number of supporting elements in order to prevent the pane from collapsing because of the external atmospheric pressure.

Abstract: Framing for panels, in particular for sliding panels, which may or may not be sliding windows, arranged to enclose and hold one or more single or multiple parallel glazing units, and having at least one frame in two parts formed from profiled parts and assembled so that their relative position can be modified, each of the profiled parts having at least one longitudinal wing which enclose a glazing unit, wherein each of the profiled parts has at least one pair of parallel transverse wings, namely an upper transverse wing and a lower transverse wing respectively, at least partially fitting around at least one insulation element, and in that the transverse wings and the insulation element are configured to ensure the connection of the parts of each frame, the width of the insulation element being adjusted at the time of mounting according to the thickness of the glazing unit or units.

Abstract: The energy-free refrigeration door of the present application provides a way to control condensation when the door of a refrigeration unit is opened by providing thermal insulation to the door with glass panels which have a low emissivity coating. The door includes a door frame housing and an insulating glass unit comprising inner, middle and outer sheets of glass. A first sealant assembly disposed around the periphery of the inner and middle sheets of glass forms a first chamber between the inner and middle sheets of glass. A second sealant assembly disposed around the periphery of the middle and outer sheets of glass forms a second chamber between the middle and outer sheets of glass. A gas, such as krypton, air, or argon is held in the first and second chambers. The outer sheet of glass and inner sheet of glass each have an unexposed surface that faces the middle sheet of glass.

Abstract: An insulating glass unit may include at least three panes of transparent material and at least two spacers positioned between different panes of the unit. For example, a first spacer may hold a first pane of transparent material a first separation distance from a second pane of transparent material and a second spacer may hold the second pane of transparent material a second separation distance from a third pane of transparent material. In some examples, the insulating glass unit is configured so that the first separation distance is greater than the second separation distance. In such examples, the insulating glass unit may have a comparatively larger first between-pane space and a comparatively smaller second between-pane space. In some applications, the insulating glass unit may exhibit thermal and sound insulating properties approximately equal to a triple-pane insulating glass unit while having size characteristics approximately equal to a double-pane insulating glass unit.

Abstract: Another exemplary embodiment relates to a sash assembly. The sash assembly includes an outer sash having at least one groove, an inner sash having at least one groove, and a removable binder extending along a perimeter of a surface of the outer sash and inner sash. The binder is configured to engage the outer sash and the inner sash and to mechanically couple the outer sash and the inner sash together. The binder includes a plurality of protrusions. Each protrusion is configured to mate with one of the groove in the inner sash and the groove in the outer sash. Each protrusion includes a plurality of flexible barbs that are compressed when the protrusion mates with one of the grooves. The flexible barbs provide a force on interior edges of the groove to couple the inner sash and outer sash together. The binder is configured for removal for service of the sash assembly.

Abstract: Framing for panels, in particular for sliding panels, which may or may not be sliding windows, arranged to enclose and hold one or more single or multiple parallel glazing units, and having at least one frame in two parts formed from profiled parts and assembled so that their relative position can be modified, each of the profiled parts having at least one longitudinal wing which enclose a glazing unit, wherein each of the profiled parts has at least one pair of parallel transverse wings, namely an upper transverse wing and a lower transverse wing respectively, at least partially fitting around at least one insulation element, and in that the transverse wings and the insulation element are configured to ensure the connection of the parts of each frame, the width of the insulation element being adjusted at the time of mounting according to the thickness of the glazing unit or units.

Abstract: A window with at least one leaf, which may be swiveled around a vertical axis, has at least two glass panels arranged one above the other in a vertical direction. The leaf is configured so that one of the glass panels is offset forwards in relation to the other glass panel or panels in the line of sight when looking at the window from outside.

Abstract: The panel element (1) comprises a frame made up of a number of frame members (2-5) as well as a panel unit (6) including at least one vacuum multi-layer pane and at least one single-layer sheet element. A spacing element is placed between the vacuum multi-layer pane and the single-layer sheet element. The spacing element is made integrally with the corresponding frame member or as a separate spacing profile.

Abstract: A window assembly includes a window frame having a front wall and a lateral wall, the window frame being set within a building opening. A thermal break liner having a laterally extending portion is provided wherein the laterally extending portion is positioned on the lateral wall of the window frame. The window assembly also includes a glazing with at least one pane of glass mounted in the window frame, a glazing bead for holding the glazing in place against the window frame, and a glazing bead retainer fixed to the thermal break liner for retaining the glazing bead in place on the thermal break liner. The thermal break liner is formed of a material having a low thermal transmittance factor and is positioned to prevent direct contact and thermal transfer between the glazing bead and the window frame. The window assembly may be a fixed or operable window assembly.

Abstract: An arrangement for attaching a safety glazing element for a building, including a supporting element connected to the building, and a glazing element including a pane coated with a safety film adhering to an inner surface of the pane. The glazing element is attached by an adhesive strip to the support. A border on the periphery of the pane is free of film so that a peripheral limit of the film is situated at a distance from the edge of the pane, the distance separating the edge of the pane and the limit of the film being alternately variable.

Abstract: Certain example embodiments of this invention relate to articles including anticondensation coatings that are exposed to an external environment, and/or methods of making the same. In certain example embodiments, the anticondensation coatings may be survivable in an outside environment. The coatings also may have a sufficiently low sheet resistance and hemispherical emissivity such that the glass surface is more likely to retain heat from the interior area, thereby reducing (and sometimes completely eliminating) the presence condensation thereon. The articles of certain example embodiments may be, for example, skylights, vehicle windows or windshields, IG units, VIG units, refrigerator/freezer doors, and/or the like.

Abstract: A skylight or other like panel comprising a dual glazed framing system is provided. The dual glazed framing system includes opposing glazing panels, a frame with supporting ledges, and translucent insulating particulate material is encapsulated in a insulating cavity defined by the frame and the opposing panes. A movable fill guide is provided and allows for the compression of the translucent insulating particulate material. A method of creating a dual glazed framing system filled with translucent insulating particulate material is also provided.

Abstract: A connecting device for connecting a mullion to a transom, each having a T-shaped metal profile fastened to the end face thereof in order to accommodate panes of glass, wherein the mullion is connected to the transom by means of a main connecting device and reinforcing means are provided to increase the stability of the mullion/transom connection, is characterized in that the reinforcing means is a reinforcing plate having the following features: a base-plate portion with fastening holes for fastening to the end face of the mullion, said mullion having a recess corresponding to the size and thickness of the base-plate portion, wherein the recess is open laterally, and two tongues bent in parallel to the plane of the base-plate portion, extending at a distance to one another and provided with fastening holes, said tongues engaging over the projecting T-shaped metal profile of the transom.

Abstract: A laminated glass retention system for securing a laminated glass subassembly within a window sash or frame member or door panel or similar component includes a retention member applied to the laminated glass subassembly. The retention member generally can include a leg portion that engages of the laminated glass subassembly, and can further include a base portion that is coupled to the frame member in which the laminated glass subassembly is seated. The retention member helps retain the insulating glass subassembly within its frame member when subjected to high winds and wind-borne debris.

Abstract: A window assembly according to various embodiments includes a frame, a sash, an insulating unit (e.g., one or more glass panels), a glass stop, an elongated frame insulating element slidably disposed on an inner surface of the frame, an elongated sash insulating element slidably disposed on an outer surface of the sash, and an elongated inner sash insulating element slidably disposed on an inner surface of the sash. The elongated frame insulating element, the elongated sash insulating element, and the elongated inner sash insulating element each define a plurality of chambers that extend substantially parallel to a longitudinal axis of each element. These chambers reduce the size of the space between the frame and sash and the size of the space between the sash, the insulating unit, and the glass stop, which results in smaller convection currents within these spaces and a more thermally efficient window assembly.

Abstract: Certain example embodiments of this invention relate to articles including anticondensation coatings that are exposed to an external environment, and/or methods of making the same. In certain example embodiments, the anticondensation coatings may be survivable in an outside environment. The coatings also may have a sufficiently low sheet resistance and hemispherical emissivity such that the glass surface is more likely to retain heat from the interior area, thereby reducing (and sometimes completely eliminating) the presence condensation thereon. The articles of certain example embodiments may be, for example, skylights, vehicle windows or windshields, IG units, VIG units, refrigerator/freezer doors, and/or the like.

Abstract: A spacer assembly is disclosed having a spacer with a cross-section varying in a repeating manner along a longitudinal axis and an adhesive sealant at least partially encapsulating the spacer. Also, a moisture vapor barrier may be provided as well as a desiccated topcoat.

Abstract: Frameless window which comprises a transparent pane, the lower edge of which is fixed in the slot of one or more holders by at least one layer of adhesive and is joined to the walls of the slot of the holders by at least two layers of a first adhesive applied close to the lateral ends of the slot, wherein at least one layer of a second adhesive is applied in the slot between the layers of the first adhesive. A process for manufacturing the window is also disclosed.

Abstract: Another exemplary embodiment relates to a sash assembly. The sash assembly includes an outer sash having at least one groove, an inner sash having at least one groove, and a removable binder extending along a perimeter of a surface of the outer sash and inner sash. The binder is configured to engage the outer sash and the inner sash and to mechanically couple the outer sash and the inner sash together. The binder includes a plurality of protrusions. Each protrusion is configured to mate with one of the groove in the inner sash and the groove in the outer sash. Each protrusion includes a plurality of flexible barbs that are compressed when the protrusion mates with one of the grooves. The flexible barbs provide a force on interior edges of the groove to couple the inner sash and outer sash together. The binder is configured for removal for service of the sash assembly.

Abstract: The present invention relates to a toggle assembly that can be used with a curtain wall system to retain infills of panel members. A toggle assembly of the present invention is sufficiently designed to simultaneously retain in place a first infill of a first panel member and a first infill of a second panel member on both sides of a mullion, wherein at least a portion of the toggle assembly directly engages at least a portion of the first infill of the first panel member and at least a portion of the first infill of the second panel member.

Abstract: An airloop wall system with durable water-tightness performance is disclosed. The system comprises a base anchor member secured to a top surface of a first floor slab, a base track connected to the base anchor, a base flashing for repelling moisture, a first ceiling anchor member secured to a bottom surface of the first floor slab, a first ceiling track connected to the first ceiling anchor member, a slab edge panel attached to the base track and the first ceiling track, a second ceiling anchor member secured to a bottom surface of a second floor slab, a second ceiling track connected to the second ceiling anchor member, a panel sill frame attached to the base track, a panel head frame attached to the second ceiling track, two jamb frames, and a panel secured between the frames. Corners of the frames are miter-matched such that air spaces inside form an airloop.

Abstract: Apparatus to protect glazed window or door panels against cold manifestation effective migration via glazing panel edge defined gaps, there being spaced apart outer, intermediate and inner glazing panels, the apparatus comprising holder structure projecting longitudinally endwise radially inwardly in said gaps, the holder structure being laterally sidewardly elongated, first synthetic resinous material retained by the holder structure to face laterally in a gap toward opposed intermediate panel edges, the material adjustably located at a position relative to the opposed intermediate panel edges characterized in that cold manifestation migrating through the gap via said material is confined to migrate in the spacing between the outer and intermediate panels, at opposite sides of the gap.

Abstract: A framed panel and related method of manufacture are disclosed. A framed panel unit includes a panel along the edge of which thermoplastic frame members are disposed. The frame members have first and second opposed side walls which define a channel for receiving the edge of the panel. The channel of each frame member has spacers between the panel and each side wall for spacing the panel from the side walls. Prior to welding together the ends of the frame members, the spacers retain the frame members on the panel. The panel may include multiple opposed sheet members with a spacer between the sheet members spacing them apart, and a reactive thermoplastic sealant material bonding the sheets to the frame members. An associated method of forming a named panel, frame members for a panel, and a spacer component for use in mounting a panel within a channel of a frame member are also disclosed.

Abstract: An assembly device for at least two laminated glazing elements each including plural individual glazing elements that are rigid and assembled to one another at the surface by bonding layers, which succeed one another in a direction of extension, partially overlapping in contiguous edge regions in perpendicular projection on faces of the glazing elements, and are assembled to one another in this limited overlap region on the edge side. Only one portion of the rigid glazing elements, at least one individual glazing element of each laminated glazing element, extends into the overlap region. This allows a smooth continuous transition from one laminated glazing element to the next with a visual effect of an extremely transparent glazing.

Abstract: The energy-free refrigeration door of the present application provides a way to control condensation when the door of a refrigeration unit is opened by providing thermal insulation to the door with glass panels which have a low emissivity coating. The door includes a door frame housing and an insulating glass unit comprising inner, middle and outer sheets of glass. A first sealant assembly disposed around the periphery of the inner and middle sheets of glass forms a first chamber between the inner and middle sheets of glass. A second sealant assembly disposed around the periphery of the middle and outer sheets of glass forms a second chamber between the middle and outer sheets of glass. A gas, such as krypton, air, or argon is held in the first and second chambers. The outer sheet of glass and inner sheet of glass each have an unexposed surface that faces the middle sheet of glass.

Abstract: The energy-free refrigeration door of the present application provides a way to control condensation when the door of a refrigeration unit is opened by providing thermal insulation, to the door with glass panels which have a low emissivity coating. The door includes a door frame housing and an insulating glass unit comprising inner, middle and outer sheets of glass. A first sealant assembly disposed around the periphery of the inner and middle sheets of glass forms a first chamber between the inner and middle sheets of glass. A second sealant assembly disposed around the periphery of the middle and outer sheets of glass forms a second chamber between the middle and outer sheets of glass. A gas, such as krypton, air, or argon is held in the first and second chambers. The outer sheet of glass and inner sheet of glass each have an unexposed surface that faces the middle sheet of glass.

Abstract: In certain example embodiments of this invention, a window unit may include a vacuum IG (VIG) unit as an inboard lite and a monolithic lite (e.g., with an optional low-E coating thereon) as an outboard lite. A dead air space may separate the inboard and outboard lites. A highly insulated frame may be used to support the inner and outer lites. The VIG unit may be partially embedded or supported in the insulative frame, so that the insulating frame separates the VIG unit inboard lite from the outboard lite thereby reducing conductivity around the edges of the window unit so that R-value can be increased (and U-value decreased). In certain example embodiments, the total R-value of the window unit is at least about R-8, and more preferably at least about R-10 (compared to the much lower R-values of conventional IG units).

Abstract: The gas fill device for multiple pane windows includes a tube installed through the peripheral spacer bar between two glass panes in an insulated glass assembly for a window, door glass, skylight, or the like. An elbow is pivotally attached to the external end of the tube. A supply of an inert, insulating gas may be attached to the elbow to refill the space between the two panes with the insulating gas, as needed. Two such tubes may be installed in each multiple pane window assembly, one to refill the space with insulating gas and the other to vent air from the space to the atmosphere as the space is refilled with the insulating gas. When the multiple pane window has more than two panes, the tube may be branched and supplied through a common elbow.

Abstract: An inner area of a framing or framework is divided into a plurality of openings by metal frame bars arranged in a lattice pattern. Particular openings are closed by surface glass panes fitted therein, and the remaining openings by metal plates fitted therein. Spacers 10 softer than the surface glass panes and frame bars and capable of transmitting external forces through the frame bars and surface glass panes are mounted in the openings, between end surfaces extending along sides of the surface glass panes and the frame bars. The spacers not adhering to the surface glass panes are spaced from corners of the surface glass panes.

Abstract: The present invention relates to a double layered window having indoor and outdoor windows. There is provided a double layered window in which a ventilation device or a ventilation hole is formed in window frame to control temperature and moisture of an intermediate layer, thereby preventing dew condensation, and in a case where the double layered window is installed to an outer wall of a high-story building, the intermediate layer between the indoor and outdoor windows is used as an air pressure buffering space, thereby preventing a problem caused by an air pressure difference.

Abstract: A refrigerator and/or freezer is provided with a glass door having a metal frame in which a glazing is inserted, the metal frame forming an outer skin of the door, which with a front-side portion and a narrow-side portion covers the front and circumferential sides of the glazing and forms the visible sides of the door, a circumferential glazing holder being connected with the outer skin. The outer skin is composed of a circumferentially integral one-piece metal casing, which on the visible sides of the door is formed without a seam, and the glazing holder is foamed into a circumferential foam body with which the metal casing is circumferentially foam-backed on its rear side.

Abstract: An insulating unit includes a first and a second sheet, each of the sheets having a first major surface and an opposite second major surface; an arrangement to position the first and second sheets in spaced relation to one another to provide a compartment between the sheets, the second major surface of the first sheet and the first major surface of the second sheet facing the compartment; a lattice made of muntin bars in the compartment, the lattice having end portions adjacent to and spaced from the arrangement; and a retainer clip having a first end portion connected to an end portion of the lattice and the opposite second end portion having a compressible base, the compressible base in surface contact with the second major surface of the first sheet and the first major surface of the second sheet to retain the lattice in position between the sheets.

Abstract: The present invention refers to a window consisting of a window frame and a window wing the latter comprising a frame and a glazing which bears a static load, and where at least one seal being arranged between said window frame and said window wing. The characteristic of the invention lies in that the glazing of the window wing is held by means of a spacer in the outer side area thereof there is each time arranged a suitably U-shaped groove in which there is inserted a glass-panel.

Abstract: A glazing method and system for upgrading an existing single glazed window installation includes providing an insulating glass unit comprising a first glazing lite and a second glazing lite. Providing a spacer located between the existing lite and the insulating glass unit. The spacer is formed from a material which is capable of forming a seal between the insulating glass unit and the existing lite and forms a cavity between the insulating glass unit assembly and the existing glazing installation. Providing a supplemental holder for holding the insulating glass unit in place against the existing glazing installation.

Abstract: A muntin bar clip and an insulated glass unit employing the clip are provided, wherein the clip has a base, a tree for engaging the hollow end of a false muntin bar extending upward from the base, and a wedge extending downward from the perimeter of the base, wherein the wedge tapers as it extends away from the base. The wedge is inserted between one of the sheets of glass and a foam spacer frame when the clip is installed. The face of the wedge that is in contact with the foam spacer frame may be provided with a projection, such as an inverted tetrahedron shape, to increase frictional resistance to movement of the clip along the spacer frame, without compromising the seal between the spacer frame and the glass.

Abstract: A glass compound is provided with two or several glass plates 1, 2 spaced apart A by a spacer 4, wherein between adjacent glass plates 1, 2 at least one inherently rigid plate element 3 is inserted whose thickness D is dimensioned to be smaller than the distance A between adjacent glass plates 1, 2 of the glass compound.

Abstract: A flexible edge seal for a vacuum insulating glazing unit. The flexible edge seal comprises an elongate first edge seal portion having a substantially constant first cross-section and including a bonding flange at one end, a weld surface at the other end and a first center portion therebetween. An elongate second edge seal portion has a substantially constant second cross-section and includes a bonding flange at one end, a weld surface at the other end and a second center portion therebetween. Each bonding flange includes a substantially flat portion adapted for hermetic bonding to a surface of a different one of a pair of glass panes. The weld surfaces are hermetically joined to one another forming a hermetic seal therebetween. At least one of the first center portion and the second center portion has a convolute cross-section and is asymmetrical to the other center portion.

Abstract: A multi-pane window unit is described which comprises a. a first glass pane (1) having an inner surface (1.1) with an edge region and an outer surface (1.2) with an edge region, b. a second glass pane (2) having an inner surface (2.1) with an edge region and an outer surface (2.2) with an edge region, c. a spacer composed of (c a) a hollow profile (3) which can be filled with moisture-absorbing material, and whose inner space for the moisture-absorbing material is defined at least by two side walls (5) and a rear wall (6), wherein the inner space has a connection to the gap between the panes, and wherein a first sealant (7) is arranged between the side walls (5) of the hollow profile and the inner surfaces of the first and second glass panes, or (c b) a spacer (8) made of a non-flowing polymeric material d.

Abstract: A novel method of making a double glazed impact resistant window is provided. The method includes forming a window sash that delineates a mounting space for mounting a first pane and a second pane opposite and parallel to and spaced apart from each other, the sash having an integral spacer that forms a sealing surface of the mounting space for each pane and adhering or coating at least two layers of a durable transparent polymer film to a surface of the first pane such that the at least two layers are not adhered or coated in directions that are parallel to one another. The method further includes conforming the pane to the size and shape of the mounting space, mounting the first pane in the mounting space with the film covered surface of the pane facing the sealing surface of the integral spacer, conforming the second pane to the size and shape of the mounting space, wherein the second pane is free of the durable transparent polymer film, and mounting the second pane in the mounting space.

Abstract: An integrated window sash includes a sash frame having a first sheet supporting surface, a second sheet supporting surface spaced from the first sheet supporting surface, and a base between the first and second sheet supporting surfaces, the base defining an opening; a first sheet having a first major surface and an opposite second major surface with marginal edge portions of the first surface of the first sheet secured to the first sheet supporting surface, the first sheet sized to pass through the opening toward the first sheet supporting surface; a second sheet having a first major surface and an opposite second major surface with marginal edge portions of the first surface of the second sheet secured to the second sheet supporting surface, the second sheet sized to be larger than the opening, wherein the first major surface of the second sheet faces the second major surface of the first sheet and is spaced therefrom to provide a compartment between the sheets; and a retainer mounted on the base between th

Abstract: The invention relates to a profile for fixing a glass window comprising an inner pane and an outer pane to an outer wall construction, wherein the inner pane and the outer pane are separated by an insulating cavity, wherein the profile comprises a spacing profile which is adapted to extend between the inner pane and the outer pane of the window on the periphery of the window, a fixing profile which is adapted for connection to at least one of the panes of the window and to the outer wall construction, wherein the spacing profile and the fixing profile are combined into a unitary profile comprising a spacing part and a fixing part. This measure results in a considerable cost reduction, particularly in respect of the mounting, since only one profile need after all be placed.